Gree Electric Appliances, Inc. of Zhuhai

Gree Green Refrigeration Technology Center Co., Ltd. of Zhuhai

Green Refrigeration Equipment Engineering Research Center of Zhuhai Gree Co., Ltd.

Gree Electric Appliances (wuhan) Co., Ltd

Gree Grfen Refrigeration Technology Center Co., Ltd. of Zhuhai

Gree Green Refridgeration Technology Center Co., Ltd. of Zhuhai

Zhuhai Kaibang Motor Manufacture Co., Ltd

Gree Green Refrigeration Technology Center Co.,ltd

Zhuhai Landa Compressor Co., Ltd.

Yusheng Hu

Bin Chen

Yong Xiao

Jia Xu

Huijun Wei

Hui Huang

Liping Ren

Tong Tong

Suhua Lu

Zhongcheng Du

Shebing Liang

Mingzhu Dong

Xiaobo Zhang

Jinfei Shi

Pengkai Wan

Sen Yang

Fang Zhang

Ouxiang Yang

Gao Gong

Zhi Li

Jianning Liu

Rongting Zhang

Dongsuo Chen

Chao Zhang

Weilin Guo

Guomang Yang

Daofu Hu

Jiuzhan Su

Liying Deng

Siyuan Tian

Caixia Shan

Jinxin Jia

Zhengliang Shi

Xia Li

Yongling He

Lingchao Kong

Ning Ding

Wenming Zhang

Xueying Zeng

Huajie Chen

Jian Wu

Jing Wang

Fayou Luo

Fei Wu

Bo Zhou

Peizhen Que

Yanjun Hu

Yuanbin Zhai

Changguang Guo

Quanfeng Li

Guanghai Li

Shuanglai Liu

Zhidong Zhang

Zeyin Mi

Shengyu Xiao

Huifang Luo

Yun Liu

Xiaoli Kang

Xue Li

Hui Zhang

Xin Li

Min Wang

Liu Xiang

Bin Yang

Chuanshun Huang

Qi Fang

Wenjiao Sun

Weicai Huang

Zhong Cui

Jiqing Geng

Shaoxuan Zhu

Lin Tang

Peilin Zhang

Qinhong Yu

Yang Li

Yang Wang

Jianming Tan

Yibo Liu

Yong Wang

Sheng Chen

Hui Sun

Gang Lv

Shuang Guo

Hongwei Zhu

Xixing Liu

Jianping Huang

Mingxing Deng

Chengbao Zhong

Jinquan Zhang

Yuchen Zhao

Qiong Wei

Qingfu Zhao

Ruhao Dong

Yiming Liang

Man Wu

Cheng Liu

Yan Li

Jiakui Xu

A compressor and an air conditioner. The compressor includes a crankshaft, a first roller, a second roller, a motor rotor and one balancing block. The interior of the first roller is a solid structure, and the interior of the second roller has a hollow portion. The balancing block is disposed at one axial end of the motor rotor, and no balancing block is arranged at another axial end of the motor rotor. A mass center of the first eccentric portion and the first roller is a first mass center, and a first mass-center axis passes through the first mass center and is parallel to an axis of the crankshaft. A mass center of the second eccentric portion and the second roller is a second mass center, and a second mass-center axis passes through the second mass center and is parallel to the axis of the crankshaft.

Compressor and air conditioner

Provided are a magnetism modulating ring structure, a magnetic gear assembly, and a compound motor. The magnetism modulating ring structure includes a plurality of modulating units and a plurality of connection parts. Each two adjacent modulating units are connected by one of the plurality of connection parts to form the magnetism modulating ring structure, and the magnetism modulating ring structure is arranged within an annular gap enclosed by a first rotor structure and a second rotor structure. A groove structure is formed on one side of the modulating unit facing the first rotor structure, and two sides of the groove structure respectively form a curved boot-like part, and an edge of the curved boot-like part facing the second rotor structure has a curved contour line parallel to flux lines passing through an inside of the curved boot-like part.

Magnetism modulating ring structure, magnetic gear assembly

The present disclosure provides a robot control apparatus. The apparatus includes: a signal acquisition unit configured to obtain, in the case that a robot triggers emergency stop and if the body switch of the robot is turned on, a switch turn-on signal that the body switch of the robot is turned on; a control unit configured to output an enable release control signal; a logic processing unit configured to perform logic processing on the switch turn-on signal if the switch turn-on signal is received, then output a manual release signal, perform logic processing on the enable release control signal if the enable release control signal is received, and then output an enable release signal; and a signal output unit configured to control, if the manual release signal or the enable release signal is received, the motor of the robot to release a band brake.

Robot control apparatus and method, and robot

A pump body assembly includes: a crankshaft, a first baffle plate and a second baffle plate. The crankshaft includes a first eccentric portion, a support shaft and a second eccentric portion which are arranged at intervals in an axial direction; the first baffle plate and the second baffle plate are arranged in sequence between the first eccentric portion and the second eccentric portion, a first round hole is arranged defined on the first baffle plate, the support shaft is arranged in the first round hole, so that the first baffle plate and the support shaft form a baffle plate bearing, and the baffle plate bearing has a stress relief structure for reducing a contact stress between the support shaft and the first baffle plate.

Pump body assembly, compressor and air conditioner

A motor includes a housing, an impeller and a diffuser in the housing, a rotor assembly and a stator assembly, the motor has an air inlet on the housing and an air outlet, the impeller is disposed adjacent to the air inlet and is connected to the rotor assembly, the diffuser is located downstream of the impeller, the stator assembly is located downstream of the diffuser, the housing includes a front housing and a rear housing connected to each other, a first air duct is enclosed among a rear inner wall of the front housing, a front inner wall of the rear housing and the diffuser and in communication with an outlet of the impeller and the air outlet, and an inner diameter size of the rear end of the rear inner wall is less than or equal to that of the front end of the front inner wall.

Motor and vacuum cleaner

Pump body assembly, fluid machinery, and a heat exchange device. The pump body assembly includes: an upper flange; a lower flange; a cylinder arranged between the upper flange and the lower flange; a sliding block structure, rotatably arranged inside the cylinder, where the sliding block structure includes a connecting portion and two sliding sub-blocks arranged on the connecting portion, and the two sliding sub-blocks and an inner wall surface of the cylinder form a first sliding hole; a piston, slidably arranged inside the first sliding hole, where a variable volume cavity is formed between the piston and an inner wall of the cylinder, and the piston has a second sliding hole; and a rotation shaft, where at least a portion of the rotation shaft is slidably arranged inside the second sliding hole.

Pump body assembly, fluid machinery, and heat exchange device

A consequent-pole motor comprises a rotor and a stator sleeved outside the rotor. The rotor comprises a plurality of permanent magnetic poles evenly spaced along a circumferential direction of the rotor. A plurality of stator teeth is disposed on an inner periphery of the stator along a circumferential direction of the inner periphery. A permanent magnetic pole of the rotor comprises a first permanent magnet mounting groove and a second permanent magnet mounting groove disposed sequentially from outside to inside along a radial direction of the rotor. A first layer permanent magnet is disposed in the first permanent magnet mounting groove, and a second layer permanent magnet is disposed in the second permanent magnet mounting groove. According to the motor, permanent magnets distributed in multiple layers are used, so that the magnetic resistance torque of the motor can be improved, which may increase reluctance torque, thereby increasing electromagnetic torque.

Consequent-pole motor with rotor having two layer permanent magnets

The present disclosure provides a rotor structure, an electric motor and a rotor manufacturing method. The rotor structure includes a plurality of rotor sheets () and a rotating shaft. The rotor sheets () are stacked in sequence along an axial direction of the rotor structure. Each of the rotor sheets () is provided with a shaft hole (), a first slot (), and first filling slots () at both ends of the first slot (). The first slot () extends in a direction of a direct axis () of the rotor structure and includes slot sections () at opposite sides of the shaft hole (). The rotating shaft passes through the shaft hole () of the plurality of rotor sheets (). The first slot (), the first filling slots () and the rotating shaft form a first flux barrier layer ().

Rotor structure, electric motor and rotor manufacturing method

A fault processing method for a displacement sensor includes: receiving a plurality of detected signals from a plurality of detecting probes and a given signal of a spare probe, wherein the detecting probes are configured to detect a displacement value of a rotation shaft of a magnetic levitation motor to obtain the detected signals, and the spare probe is configured to replace a faulty probe among the plurality of detecting probes; determining whether there is a faulty probe among the plurality of detecting probes based on the plurality of detected signals and the given signal; and connecting the given signal of the spare probe to the faulty probe corresponding to a case that a determination result is yes.

Fault processing system for displacement sensor

A single-phase permanent magnet synchronous motor and dust collector. The single-phase permanent magnet synchronous motor includes a plurality of stator teeth, the plurality of stator teeth include at least: a first-type and second-type stator tooth; the first-type and second-type stator teeth enclose an annular working cavity for accommodating a rotor part, where the size of a central angle corresponding to a first contour line of an end face of the first-type stator tooth facing the rotor part is different from the size of a central angle corresponding to a second contour line of an end face of the second-type stator tooth facing the rotor part. The motor has a significantly reduced cogging torque, a greatly reduced torque ripple, and an obviously increased motor output torque. The single-phase permanent magnet synchronous motor is small in size, light in weight, simple in structure, convenient for large-scale manufacture and low in manufacturing cost.

Single-phase permanent magnet synchronous motor and dust collector

A compressor includes a drive motor and a wind wheel, wherein the drive motor includes a casing and a rotor, the rotor being rotatably arranged within the casing; the wind wheel is mounted at a first axial end of the rotor. A thrust disc is also provided at the first axial end of the rotor. An axial bearing assembly is arranged between the thrust disc and the wind wheel, and the axial bearing assembly is arranged fixedly with respect to the casing. A first air gap is formed between a first end of the axial bearing assembly and the wind wheel, and a second air gap is formed between a second end of the axial bearing assembly and the thrust disc. The air compressor reduces a tolerance accumulation caused by part cooperation between axial bearing assemblies, and more precisely ensures effective working clearances.

Compressor

Disclosed are a compressor, an air conditioner and a method for assembling a compressor, wherein the compressor includes a housing, a first cylinder assembly and a second cylinder assembly. The first cylinder assembly includes a first cylinder. The first cylinder assembly has a first discharge channel. A first end of the first discharge channel is in communication with the first cylinder, a second end of the first discharge channel is in communication with a receiving chamber. The second cylinder assembly includes a second cylinder; the second cylinder is disposed adjacent to the first cylinder. The second cylinder assembly has a second discharge channel which is disposed relatively independent of the first discharge channel. A first end of the second discharge channel is connected to the second cylinder; a second end of the second discharge channel is in communication with a receiving chamber.

Compressor, air conditioner and method for assembling compressor

Disclosed are a pump body assembly and a fluid machine. The pump body assembly includes a rotation shaft and a piston provided with a sliding hole, at least a portion of the rotation shaft penetrates into the sliding hole, during rotation of the piston with the rotation shaft, and the sliding hole is in sliding fit with the rotation shaft, the piston is provided with a piston communication passage communicated with the sliding hole. The pump body assembly can solve the problem that the piston impedes a flow of oil liquid during use of a rotary cylinder compressor.

Pump body assembly and fluid machine

The present disclosure relates to a flange and a pump body assembly with the same. The flange includes a flange body having a shaft hole formed therein, with a back pressure groove being provided besides the shaft hole, a communication part being provided in a side wall of the back pressure groove on a side close to the shaft hole, the communication part communicating the back pressure groove with the shaft hole, and the communication part being configured to supply lubricating oil to the back pressure groove or discharge the lubricating oil from the back pressure groove. By providing the communication part in the side wall of the back pressure groove of the flange body on the side close to the shaft hole, the lubricating oil can be timely conveyed into the back pressure groove by means of the communication part.

Flange and pump body assembly with same

A tangential motor, a tangential motor rotor and a rotor core thereof are provided. The rotor core includes a rotor body and magnetic steel grooves provided on the rotor body 2N magnetic isolation holes are provided in a rotor magnetic pole between every two adjacent magnetic steel grooves. The 2N magnetic isolation holes are symmetrically provided at two sides of a magnetic pole center line of the rotor magnetic pole. A width of each of the magnetic isolation holes increases from a circle center of the rotor body to an outer side of the rotor body. Outer side hole surfaces, close to the outer side of the rotor body, of the magnetic isolation holes are arc-shaped surfaces which are concentrically arranged with the rotor body. The rotor core is able to reduce the vibration noise of the motor and increase the efficiency of the motor.

Tangential motor, tangential motor rotor and rotor core of tangential motor rotor

Growing community of inventors

Zhuhai, China

Yusheng Hu